Scientific & Engineering Services

What we offer

We transform intricate technical, scientific, and engineering challenges into tangible solutions that foster innovation.

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  • We begin with sharp problem framing, establishing measurable success criteria, constraints, and decision points. We then integrate theory, modeling, and experiment as appropriate to converge on a solution path. Work proceeds through clearly defined milestones, interim technical reviews, and business-ready deliverables. The cadence is designed to support timely decisions—adopt, pivot, or scale—so you can manage risk and allocate capital effectively. 

  • Many product and process failures trace to interfacial instabilities, unwanted adsorption, particle aggregation, or rheological surprises. We deploy the physics of wettability, interfacial rheology, colloidal interactions, and transport to diagnose root causes and design targeted interventions. For systems involving amphiphilic or magnetic Janus particles, we analyze orientation at interfaces, tunable amphiphilicity, and field-responsive self-assembly to achieve stability, structure, and functionality relevant to coatings, separations, drug delivery, and environmental remediation. 

  • Before running costly experiments, we leverage continuum and particle-based models to map regimes, predict failure modes, and de-risk design choices. We routinely develop reduced-order surrogates to explore parameter spaces that are impractical to scan experimentally; the outputs—phase diagrams, processing windows, and control policies—compress months of trial-and-error into a handful of decisive experiments.

  • Data in R&D are often sparse, noisy, and heterogeneous. We build pragmatic tools that respect those realities: automated image/trajectory analysis for microscopy and rheology; Bayesian optimization for process conditions; and physics-informed models that enforce conservation and symmetry laws. Deliverables may include maintained repositories, APIs, and lightweight dashboards your teams can adopt immediately. 

  • Our engagements align technical work with product and manufacturing milestones. We complement the experiment–model loop with decision gates tied to business outcomes—cost, performance, reliability, and time-to-market—and structure knowledge capture so that insights become reusable capability inside your organization, not just a one-off report. 

  • Each project is staffed with the right mix of faculty, research staff, and graduate students across chemical, mechanical, and computer engineering. When projects demand broader capability, we seamlessly integrate additional faculty without adding complexity for the partner; you continue to interface with a single accountable lead. 

  • We provide customizable training and workshops for engineers, scientists, and operators, designed to upskill your workforce and embed new capabilities. Formats range from 1–2 day intensives to multi-week applied modules.

Core Scientific and Engineering Skills

Fluid Mechanics

Stokes flows, thin films, non-Newtonian rheology, instabilities (Saffman–Taylor, Marangoni), multiphase flows, and wetting/dewetting dynamics.

Transport Phenomena

Coupled momentum, heat, and mass transfer; diffusion–reaction systems; interfacial transport; drying and curing optimization.

Soft Matter Physics

Self-assembly, interfacial structuring, amphiphilic/magnetic Janus particles with tunable orientation and response.

Colloidal Suspensions & Rheology

Stabilization strategies (DLVO, steric, depletion), shear thickening/yield stress, thixotropy, suspension stability in slurries and inks.

Modeling & Computation

CFD, particle simulations, uncertainty quantification, Bayesian optimization, and physics-informed ML.

Why partner with us

Group of people having a discussion in a small room, some sitting on a sofa and others on chairs, with laptops open in front of them.

Partnering with us means more than solving technical challenges—it’s about gaining a trusted collaborator who blends deep scientific expertise with practical execution to deliver lasting impact.

  • Multidisciplinary Expertise: Teams span chemical, biological, mechanical, and software/computer engineering, as well as physics, mathematics, and data science.

  • Specialized Facilities & Methods: Access UPRM’s facilities and unique methodologies.

  • Scalable Collaboration: One agreement defines scope, deliverables, budget, timeline, and governance, with a flexible team assembled for each project.

  • Talent Pipeline: Graduate students and research staff gain hands-on experience and can transition into internships or full-time roles, preserving technical knowledge.

  • Actionable Outcomes: Clear milestones, regular reviews, and actionable reports ensure practical results for industry and policymakers.

  • Proven Impact: Accelerated time-to-market, reduced development risk, and durable capabilities that extend beyond individual projects.

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